Bundles, curvature and holonomy
Thirty-four chapters develop bundles, connections, curvature, holonomy, Riemannian and Kähler geometry, and integral characteristic classes. Complete proofs and exact earlier chapter links accompany the results.
These thirty-four chapters are self-checked by the writing AI.
Checked chapters
- Local tools for bundles and transport
- Integral Thom classes and Euler indices
- Manifold duality and the Euler characteristic
- Projective bundles, Gysin sequences and line classes
- Chern classes and the Whitney formula
- Curvature, characteristic classes and Gauss–Bonnet
- Principal bundles and associated bundles
- Connections and parallel transport
- Curvature and holonomy groups
- Reduction and the holonomy theorem
- Flat connections and infinitesimal holonomy
- Invariant connections on homogeneous bundles
- Linear and affine connections
- Geodesics, normal coordinates and curvature
- Riemannian connections and convex neighbourhoods
- Completeness and the Hopf–Rinow theorem
- Holonomy and the de Rham decomposition theorem
- Sectional curvature and space forms
- Affine transformations and the isometry group
- Holonomy, Killing fields and analytic extension
- Submanifolds and hypersurfaces
- Jacobi fields, conjugate points and the Morse index theorem
- Comparison theorems, cut loci and curvature and topology
- Complex manifolds and Kähler metrics
- Kähler curvature and Hermitian vector bundles
- Homogeneous spaces and invariant connections
- Symmetric spaces
- Symmetric Lie algebras and Hermitian symmetric spaces
- Characteristic classes and the Weil homomorphism
- Vector bundles and their constructions
- Fundamental classes from finite chart gluing
- Grassmannians and classifying maps
- Schubert cells and universal Grassmannian cohomology
- Pontryagin classes and the Euler square
Human construction sources and component terms remain in the chapters. Rendering software and fonts retain their notices.